Application of Novel Big Data Intelligent Corrosion Assessment Approach in Corrosion‐resistant Low‐alloy Steel Development

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Authors: Chao Liu, Bingqin Wang, Xiaogang Li, Shasha Zhang, Zhong Li
Cited by: 0

Abstract

Low-alloy steel's corrosion resistance relies on elements like Cu, Cr, Ni, Si, P, and Mo, which enhance rust layer density via substitution, self-oxidation, or acid-salt formation. Optimizing alloy design requires understanding these mechanisms. Welding, crucial for cost reduction, introduces structural heterogeneity in the heat-affected zones (HAZs), worsening corrosion. Uniform microstructures (e.g. bainite) improve rust layer stability. Traditional corrosion evaluation (e.g. exposure tests) is slow; machine learning (ANN, SVM, and RF) now enables faster, data-driven predictions. This chapter examines Cr, Mo, and Sn effects in tropical marine environments, analyzes HAZ corrosion, and develops AI-based evaluation models to advance corrosion-resistant steel development.

Fields of Study & Subjects

Machine Learning in Materials Science Corrosion Behavior and Inhibition Microstructure and Mechanical Properties of Steels

Publication details

Journal / source
Wiley eBooks
Pages
427–502
Publication date
19 February 2026
Language
EN
Document type
Book chapter